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An in-depth examination of fire-related damages in reinforced concrete structures-A review

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Abstract 

Ensuring fire safety measures is a fundamental necessity in the design of buildings to safeguard the well-being of their occupants. Fire-related incidents pose a substantial danger to the integrity of reinforced concrete structures, even though concrete itself is inherently noncombustible. The exposure of concrete to high temperatures can lead to the deterioration of its characteristics related to chemical, physical and mechanical aspects. This review paper provides an in-depth examination of fire-related damages in reinforced concrete structures. With a focus on enhancing understanding and mitigation strategies, the paper explores the complexities surrounding fires in these structures, which serve as homes and functional spaces for numerous people over their planned lifespan. Key objectives include investigating how reinforced concrete structures respond post-fire and exploring assessment techniques for high-rise structures affected by fire damage. Through analysis of various damage phases and identification parameters, the review offers insights into post-fire structural behavior. Additionally, the paper presents future suggestions aimed at improving active and operational conditions, thereby contributing to the advancement of fire safety in reinforced concrete structures.

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References  

  1. Ni S, Gernay T (2020) Predicting residual deformations in a reinforced concrete building structure after a fire event. Eng Struct 202:109853

    Google Scholar 

  2. Kodur V, Kumar P, Rafi MM (2019) Fire hazard in buildings: review, assessment and strategies for improving fire safety. PSU Res Rev 4(1):1–23

    Google Scholar 

  3. Kodur V (2014) Properties of concrete at elevated temperatures. ISRN Civ Eng 2014:429–432

    Google Scholar 

  4. Khan M, Cao M, Chaopeng X, Ali M (2021) Experimental and analytical study of hybrid fiber reinforced concrete prepared with basalt fiber under high temperature. Fire Mater 46(1):205–226

    Google Scholar 

  5. Li L, Khan M, Bai C, Shi K (2021) Uniaxial tensile behavior, flexural properties, empirical calculation and microstructure of multi-scale fiber reinforced cement-based material at elevated temperature. Materials 14(8):1827

    Google Scholar 

  6. Buchanan AH, Abu AK (2001) Structural Design for Fire Safety, 2nd edn. Wiley

    Google Scholar 

  7. Khan M, Cao M, Xie C, Ali M (2021) Efficiency of basalt fiber length and content on mechanical and microstructural properties of hybrid fiber concrete. Fatigue Fract Eng Mater Struct 44(8):2135–2152

    Google Scholar 

  8. Xie C, Cao M, Khan M, Yin H, Guan J (2021) Review on different testing methods and factors affecting fracture properties of fiber reinforced cementitious composites. Constr Build Mater 273:121766

    Google Scholar 

  9. Xie C, Cao M, Guan J, Liu Z, Khan M (2021) Improvement of boundary effect model in multi-scale hybrid fibers reinforced cementitious composite and prediction of its structural failure behavior. Compos Part B Eng 224:109219

    Google Scholar 

  10. CTIF (2018) World Fire Statistics. International association of fire and rescue services. [Online]. Available: www.ctif.org/sites/default/files/ctif_report22_world_fire_statistics_2017.pdf. Accessed: 30-Jun-2019

  11. Alarie Y (2002) Toxicity of fire smoke. Crit Rev Toxicol 32(4):259–289

    Google Scholar 

  12. National Fire Protection Association, Reporter’s Guide: The consequences of fire,” Nfpa, 2021. [Online]. Available: https://www.nfpa.org/News-and-Research/Publications-and-media/Press-Room/Reporters-Guide-to-Fire-and-NFPA/Consequences-of-fire.

  13. Martin D, Tomida M, Meacham B (2016) Environmental impact of fire. Fire Sci Rev 5(1):1–21

    Google Scholar 

  14. Ryu E, Shin Y, Kim H (2018) Effect of loading and beam sizes on the structural behaviors of reinforced concrete beams under and after fire. Int J Concr Struct Mater 12(1):54

    Google Scholar 

  15. Knyziak P, Kowalski R, Krentowski JR (2019) Fire damage of RC slab structure of a shopping center. Eng Fail Anal 97:53–60

    Google Scholar 

  16. Wroblewska J, Kowalski R (2020) Assessing concrete strength in fire-damaged structures. Constr Build Mater 254:13–20

    Google Scholar 

  17. Kordina KR (2010) Design of concrete buildings for fire resistance: structural concrete textbook on behaviour, design and performance. Design concrete build fire resist, vol 4, 2nd edn. fib Fédération internationale du béton, pp 1–36

  18. Bazant ZP, Kaplan MF (1996) Concrete at high temperatures: material properties and mathematical models. Walter P. Murphy Professor of Civil Engineering, Non-western University and Emeritus Professor, University of Cape

  19. Bamonte P, Gambarova PG (2014) Properties of concrete subjected to extreme thermal conditions. J Struct Fire Eng 5(1):47–62

    Google Scholar 

  20. Kodur VKR, Agrawal A (2016) An approach for evaluating residual capacity of reinforced concrete beams exposed to fire. Eng Struct 110:293–306

    Google Scholar 

  21. Agrawal A, Kodur VKR (2020) A novel experimental approach for evaluating residual capacity of fire damaged concrete members. Fire Technol 56(2):715–735

    Google Scholar 

  22. Felicetti F (2014) Assessment of fire damage in concrete structures: new inspection tools and combined interpretation of results in 8th International Conference on Structures in Fire Shanghai, China

  23. Huang Z (2010) The behavior of reinforced concrete slabs in fire. Fire Saf J 45(5):271–282

    Google Scholar 

  24. Osman MH et al (2017) A case study on the structural assessment of fire-damaged building. IOP Conf Ser: Mater Sci Eng 271(1)

  25. Dwaikat MB, Kodur VKR (2010) Fire induced spalling in high strength concrete beams. Fire Technol 46(1):251–274

    Google Scholar 

  26. Khoury GA, Majorana CE, Pesavento F, Schrefler BA (2002) Modelling of heated concrete. Mag Concr Res 54(2):77–101

    Google Scholar 

  27. Kowalski R (2010) Mechanical properties of concrete subjected to high temperature, architecture civil engineering. Civil Eng 3(2):61–70

    Google Scholar 

  28. Chudzik P, Kowalski R, Abramowicz M (2017) Strains of concrete in RC structures subjected to fire. Procedia Eng 193:377–384

    Google Scholar 

  29. Kowalski R et al (2017) Reaction of R/C slabs cross-sections to fire: calculation of simplified substitute temperature loads induced by an unsteady heat flow. Appl Struct Fire Eng

  30. Ryu E, Kim H, Chun Y, Yeo I, Shin Y (2020) Effect of heated areas on thermal response and structural behavior of reinforced concrete walls exposed to fire. Eng Struct 207:110165

    Google Scholar 

  31. Al-Rousan R (2020) Optimum endurance time of reinforced concrete one way slab subjected to fire. Procedia Manuf 44:520–527

    Google Scholar 

  32. Hager I (2009) Methods for assessing the state of concrete in fire-damaged structures. Cem Wapno Beton 29(4)

  33. Liu JC, Tan KH, Yao Y (2018) A new perspective on nature of fire-induced spalling in concrete. Constr Build Mater 184:581–590

    Google Scholar 

  34. Beneberu E. Performance of composite concrete bridge deck under hydrocarbon pool fire exposure. Ph.D., P.E., Department of Civil Engineering, University of Texas at Arlington

  35. El-Gohary MA, Moneim AAA (2021) The environmental factors affecting the archaeological buildings in Egypt. Periodico di Mineralogia 90(2)

  36. Ingham JP (2009) Application of petrographic examination techniques to the assessment of fire-damaged concrete and masonry structures. Mater Charact 60(7):700–709

    Google Scholar 

  37. Georgali B, Tsakiridis PE (2005) Microstructure of fire-damaged concrete. A case study. Cem Concr Compos 27(2):255–259

    Google Scholar 

  38. Malone C, Zhu J, Hu J, Snyder A, Giannini E (2021) Evaluation of alkali–silica reaction damage in concrete using linear and nonlinear resonance techniques. Constr Build Mater 303:124538

    Google Scholar 

  39. Flores Sasso V, Prieto Vicioso E, Garcia De Miguel JM (2020) Physico-chemical analysis of historic concrete structures in the Caribbean. REHABEND, pp 539–553

  40. Salvatici T, Calandra S, Centauro I, Pecchioni E, Intrieri E, Garzonio CA (2020) Monitoring and evaluation of sandstone decay adopting non-destructive techniques: on-site application on building stones. Heritage 3(4):1287–1301

    Google Scholar 

  41. Song Y, Huang Z, Shen C, Shi H, Lange DA (2020) Deep learning-based automated image segmentation for concrete petrographic analysis. Cem Concr Res 135:106118

    Google Scholar 

  42. Cho HC, Lee DH, Ju H, Park HC, Kim HY, Kim KS (2017) Fire damage assessment of reinforced concrete structures using fuzzy theory. Appl Sci 7(5):518

    Google Scholar 

  43. Obasa OO, Mbamali I, Okolie KC (2020) Assessment of fire disaster prepapredness of commercial buildings in Imo state, Nigeria, IOSR. J Environ Sci Toxicol Food Technol (IOSR-JESTFT) 14(5):56–67

    Google Scholar 

  44. Stern-Gottfried J, Rein G, Bisby LA, Torero JL (2010) Experimental review of the homogeneous temperature assumption in post-flashover compartment fires. Fire Saf J 45(4):249–261

    Google Scholar 

  45. Nimlyat PS, Audu AU, Ola-Adisa EO, Gwatau D (2017) An evaluation of fire safety measures in high-rise buildings in Nigeria. Sustain Cities Soc 35:774–785

    Google Scholar 

  46. National Fire Protection Association (2008) Fire Protection Handbook, vol 1. Edited by Arthur E. Cote et al. National Fire Protection Association

  47. Martin DM, Moore DB (1997) Introduction and background to the research programme and major fire tests at BRE Cardington. Natl Steel Constr Conf London 13:37–64

    Google Scholar 

  48. Newey A, Lepschi B, Croft J (2008) A disaster recovery plan for the Australian National Herbarium Canberra. Cent Plant Biodivers Res

  49. Kline T (2020) An innovative approach assuring the successful repair of fire-damaged reinforced concrete structures. Concrete Repair Solutions, Structural Group, Inc.

  50. Tofiło P, Konecki M, Gałaj J, Jaskołowski W, Tusnio N, Cisek M (2013) Expert system for building fire safety analysis and risk assessment. Procedia Eng 57:1156–1165

    Google Scholar 

  51. Ahmad W, Ahmad A, Ostrowski KA, Aslam F, Joyklad P (2021) A scientometric review of waste material utilization in concrete for sustainable construction. Case Stud Constr Mater 15:e00683

    Google Scholar 

  52. Ahmad W, Ahmad A, Ostrowski KA, Aslam F, Joyklad P, Zajdel P (2021) Sustainable approach of using sugarcane bagasse ash in cement-based composites: a systematic review. Case Studies Constr Mater 15:e00698

    Google Scholar 

  53. Ahmad W, Khan M, Smarzewski P (2021) Effect of short fiber reinforcements on fracture performance of cement-based materials: a systematic review approach. Materials 14(7):1745

    Google Scholar 

  54. Qin D. A comprehensive review on fire damage assessment of reinforced concrete structures. Changchun Institute of Technology, Changchun, p 130021

  55. Kalifa P, Menneteau FD, Quenard D (2000) Spalling and pore pressure in HPC at high temperature. Cem Concr Res 1:1915–1927

    Google Scholar 

  56. Kalifa P, Chene G, Galle C (2001) High-temperature behavior of HPC with polypropylene fibers: From spalling to microstructure. Cem Concr Res 31(10):1487–1499

    Google Scholar 

  57. Harmathy TZ (1964) Moisture in materials in relation to fire test. ASTM Spec Tech Publ 385:74–95

    Google Scholar 

  58. Bazant ZP (1997) Analysis of pore pressure, thermal stresses and fracture in rapidly heated concrete. In: International Workshop on Fire Performance of High Strength Concrete, pp 13–14

  59. Bostrom L, Jansson R (2011) The age effect on fire spalling of concrete. In: 2nd International RILEM Workshop on Concrete Spalling due to Fire Exposure, pp 33–41

  60. Cherif G et al. Numerical modelling of one-way reinforced concrete slab in fire: taking into account of spalling. J Fire Prot Eng

  61. Behnam B. Effects of thermal spalling on the fire resistance of earthquake-damaged reinforced concrete structures. J Struct Eng

  62. Amran M et al (2023) Fire-Induced Spalling of Ultra-High Performance Concrete: A Systematic Critical Review. J Concr Res 373:130869

    Google Scholar 

  63. Chen J et al (2024) Experimental Investigation of Behavior of Reinforced High-Strength Concrete Walls Under Standard Fire. J Struct Fire Eng 87:109052

    Google Scholar 

  64. Kowalski R, Wroblewska J (2018) ´ Application of a sclerometer to the preliminary assessment of concrete quality in structures after fire. Arch Civ Eng 64(4):171–186

    Google Scholar 

  65. European Standard (2007) UK National Annex to Eurocode 9: Design of concrete structures – Part 1–2: General Rules Structural fire design

  66. National Fire Protection Association (2003) Life safety code, 13th edn. NFPA, p 101

  67. DIN 4102-8 (2003) Fire behaviour of building materials and components - Part 8: Small scale test furnace

  68. DIN EN 13501-1:2010-01 (2010) Fire classification of construction products and building elements - Part 1: Classification using data from reaction to fire tests

  69. Behnam B, Ronagh H (2014) An engineering solution to improve post-earthquake fire resistance in important reinforced concrete structures. Adv Struct Eng 17(7):993–1009

    Google Scholar 

  70. Molkens T (2022) The Cooling Phase, a Key Factor in the Post-Fire Performance of RC Columns. J Struct Fire Eng 128:103535

    Google Scholar 

  71. Al-Awaidy NS, Ammar YA (2024) Behavior of reinforced concrete columns exposed to cyclic fire. J Struct Fire Eng

  72. Molkens T, Van Coile R, Gernay T (2017) Assessment of damage and residual load bearing capacity of a concrete slab after fire: applied reliability-based methodology. Eng Struct 150:969–985

    Google Scholar 

  73. Liu X, Gernay T, Zhi LZ, Lu DZ (2021) Seismic performance of post-fire reinforced concrete beam-column joints strengthened with steel haunch system. Eng Struct 234:111

    Google Scholar 

  74. Khan M, Ali M (2020) Optimization of concrete stiffeners for confined brick masonry structures. J Build Eng 32:101689

    Google Scholar 

  75. Qureshi RK, Elhami-Khorasani N, Gernay T (2019) Adaption of active boundary conditions in structural fire testing. J Struct Fire Eng 10(4):504–528

    Google Scholar 

  76. Salah Dimia M, Guenfoud M, Gernay T, Franssen JM (2011) Collapse of concrete columns during and after the cooling phase of a fire. J Fire Prot Eng 21(4):245–263

    Google Scholar 

  77. Ronagh HR, Behnam B (2012) Investigating the effect of prior damage on the post-earthquake fire resistance of reinforced concrete portal frames. Int J Concr Struct Mater 6(4):209–220

    Google Scholar 

  78. Behnam B, Ronagh H (2013) Performance of reinforced concrete structures subjected to Fire following earthquake. Eur J Environ Civ Eng 17(4):270–292

    Google Scholar 

  79. Behnam B, Ronagh HR, Baji H (2013) Methodology for investigating the behavior of reinforced concrete structures subjected to post earthquake fire. Adv Concr Constr 1(1):29–44

    Google Scholar 

  80. Jovanovic B, Van Coile R, Hopkin D, Elhamikhorasani N, Lange D, Gernay T (2021) Review of current practice in probabilistic structural fire engineering: permanent and live load modelling. Fire Technol 57(1):1–30

    Google Scholar 

  81. Moradi M, Tavakoli H, AbdollahZade GR (2020) Sensitivity analysis of the failure time of reinforcement concrete frame under postearthquake fire loading. Struct Concr 21(2):625–641

    Google Scholar 

  82. Hager I. Behaviour of cement concrete at high temperature. Institute of Building Materials and Structures, Cracow University of Technology, 24 Warszawska St., 31-155 Krakow, Poland

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All authors contributed to the study conception and design. Material preparation, data collection and analysis were performed by G.B. and N.R. The draft of the manuscript was written by G.B. and all authors commented on previous versions of the manuscript. S.R.C. verified the results section and verified entire manuscript. All authors read and approved the final manuscript.

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Correspondence to Guruprasad Biradar.

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Biradar, G., Ramanna, N. & Madduru, S.R. An in-depth examination of fire-related damages in reinforced concrete structures-A review. J Build Rehabil 9, 81 (2024). https://doi.org/10.1007/s41024-024-00438-y

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